As opposed to more general structured quantum programs, Qiskit natively supports classical feedforward and explicit control flow as described in the Qiskit documentation. A range of quantum algorithms has been proposed that rely on mid-circuit measurements. With the rapidly growing capabilities of modern compiler infrastructures, for example, those based on MLIR, and of emerging hardware platforms supporting dynamic circuits, such algorithms are becoming increasingly relevant.
This tracking issue is intended to collect benchmark circuits that exhibit dynamic behavior and are therefore of particular interest for integration into MQT Bench. After discussion with and acceptance by the maintainers, each proposed benchmark will be tracked in its own dedicated sub-issue covering its implementation, documentation, and validation.
Each sub-issue is expected to follow the structure outlined below.
Add … to the list of available benchmarks, including
• documentation (explanation, constraints, parameters, …),
• implementation (as a Qiskit circuit), and
• testing (if not covered by existing tests).
As opposed to more general structured quantum programs, Qiskit natively supports classical feedforward and explicit control flow as described in the Qiskit documentation. A range of quantum algorithms has been proposed that rely on mid-circuit measurements. With the rapidly growing capabilities of modern compiler infrastructures, for example, those based on MLIR, and of emerging hardware platforms supporting dynamic circuits, such algorithms are becoming increasingly relevant.
This tracking issue is intended to collect benchmark circuits that exhibit dynamic behavior and are therefore of particular interest for integration into MQT Bench. After discussion with and acceptance by the maintainers, each proposed benchmark will be tracked in its own dedicated sub-issue covering its implementation, documentation, and validation.
Each sub-issue is expected to follow the structure outlined below.